
Fusion 360 Course
Master Fusion 360 from the ground up and gain the skills to design, simulate, and manufacture real-world parts and assemblies. This comprehensive course covers 2D sketching, parametric solid modeling, surface design, technical documentation, and manufacturing prep. Whether you are an engineer, designer, or maker, you will finish with the tools and confidence to bring your ideas to life.
What you will learn:
You will start by learning Fusion 360's interface and 2D sketching environment, then progress to building parametric solid models and complex assemblies with joints and motion constraints. You will create surface geometry for consumer product design, generate professional engineering drawings with GD&T callouts, and prepare models for 3D printing and CNC machining. The course also covers static stress simulation, rendering, generative design, sheet metal tools, and cloud-based collaboration workflows. By the end, you will have a complete, production-ready skill set in Fusion 360.
How you study in practice Fusion 360 Course
How you practise Fusion 360 Course
For companies looking to train their teams
With Dedika for Businesses, the course includes exercises and examples tailored to your own business and the specific needs of your company.
Course content
8 Chapters • 38 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsGetting Started with Fusion 360
Getting Started with Fusion 360
Lesson 1 • Understanding the Fusion 360 Interface
Introduces the toolbar, browser panel, timeline, and canvas layout. Provides the spatial awareness required to locate tools efficiently throughout the course.
Lesson 2 • Installing and Configuring Fusion 360
Covers account creation, software installation, and initial preferences setup. Establishes the working environment needed for all subsequent exercises.
Lesson 3 • Navigating the 3D Workspace
Teaches orbit, pan, zoom, and view cube controls for 3D navigation. Fluent navigation reduces friction in every modelling task ahead.
Lesson 4 • Managing Projects and Files
Explains Fusion 360's cloud-based file system, version control, and export options. Proper file management prevents data loss and supports team collaboration.
Chapter 2HideHide detailsSee details2D Sketching Fundamentals
2D Sketching Fundamentals
Lesson 1 • Adding Dimensions and Parameters
Explains dimensional constraints and the use of named parameters for driven dimensions. Parametric dimensions enable rapid design iteration without redrawing geometry.
Lesson 2 • Advanced Sketch Tools
Introduces offset, mirror, pattern, trim, and extend tools for efficient sketch editing. These tools accelerate complex profile creation and reduce repetitive drawing.
Lesson 3 • Applying Sketch Constraints
Teaches geometric constraints such as coincident, parallel, perpendicular, and tangent. Constraints lock sketch intent and prevent unintended geometry changes.
Lesson 4 • Sketch Environment Basics
Introduces the Sketch workspace, origin planes, and sketch activation workflow. Understanding the sketch environment is prerequisite to all parametric modelling.
Lesson 5 • Drawing Basic Sketch Geometry
Covers lines, rectangles, circles, arcs, polygons, and splines. These primitives form the building blocks of every profile used in 3D features.
Chapter 3HideHide detailsSee detailsCore 3D Modelling Techniques
Core 3D Modelling Techniques
Lesson 1 • Sweep and Loft Features
Teaches Sweep and Loft to create complex geometry along paths or between profiles. These features handle organic and transitional shapes that extrude cannot produce.
Lesson 2 • Hole, Shell, and Draft Features
Introduces Hole, Shell, and Draft commands for manufacturing-ready geometry. These features add functional detail and prepare models for real-world fabrication.
Lesson 3 • Extrude and Revolve Features
Covers the Extrude and Revolve commands to generate solids from closed profiles. These are the most frequently used feature creation tools in parametric modelling.
Lesson 4 • Pattern and Mirror Features
Covers rectangular, circular, and path-based feature patterns plus mirroring. Patterns dramatically reduce modelling time for repetitive geometry.
Lesson 5 • Fillet and Chamfer Operations
Explains edge rounding and beveling using Fillet and Chamfer tools. Proper edge treatment improves aesthetics, strength, and manufacturability of parts.
Chapter 4HideHide detailsSee detailsParametric Design and Design History
Parametric Design and Design History
Lesson 1 • Editing and Redefining Features
Teaches double-click editing, sketch redefinition, and feature suppression workflows. Efficient feature editing is the core skill for iterative parametric design.
Lesson 2 • Understanding the Parametric Timeline
Explains how Fusion 360 records feature history and how the timeline drives model updates. A clear understanding of timeline order prevents regeneration errors.
Lesson 3 • Design Configurations and Variants
Introduces change parameters workflows to generate multiple design variants from one model. Configurations reduce file duplication and streamline product family management.
Lesson 4 • User Parameters and Equations
Covers creating named user parameters and linking them with mathematical expressions. Parameter-driven models update globally from a single change in the parameters table.
Chapter 5HideHide detailsSee detailsAssembly Design and Components
Assembly Design and Components
Lesson 1 • Applying Joints and Constraints
Covers rigid, revolute, slider, and planar joints to define component motion. Joints replace traditional mate constraints and drive motion studies.
Lesson 2 • Inserting and Positioning Components
Teaches inserting existing designs and positioning them using Move and Align tools. Accurate initial placement simplifies joint application and reduces constraint conflicts.
Lesson 3 • Components vs. Bodies in Assemblies
Clarifies the distinction between bodies and components and when to use each. Correct component structure is essential for joints, motion, and bill-of-materials output.
Lesson 4 • Bill of Materials and Assembly Output
Introduces BOM generation, component numbering, and assembly export workflows. Structured output connects design data to procurement and manufacturing processes.
Lesson 5 • Motion and Interference Analysis
Explains joint limits, motion links, and interference detection between components. These tools validate assembly function before physical prototyping.
Chapter 6HideHide detailsSee detailsSurface Modelling Essentials
Surface Modelling Essentials
Lesson 1 • Stitching and Patching Surfaces
Explains Stitch, Patch, and Boundary Fill commands to close surface bodies. Watertight closure is required before converting surfaces to solid geometry.
Lesson 2 • Creating Basic Surfaces
Covers Extrude, Revolve, Sweep, and Loft applied to open profiles to generate surfaces. Open-profile operations produce the thin-shell geometry central to surface design.
Lesson 3 • Curvature Analysis and Quality Control
Introduces zebra stripe, curvature map, and draft analysis tools for surface quality. Visual analysis ensures continuity and manufacturability before finalising designs.
Lesson 4 • Introduction to Surface Modelling
Distinguishes surface bodies from solid bodies and explains when surface modelling is preferred. This context guides tool selection throughout the surface modelling workflow.
Lesson 5 • Surface Editing and Trimming
Teaches Trim, Extend, Offset, and Thicken tools for refining surface geometry. Precise surface editing ensures clean boundaries before stitching into solids.
Chapter 7HideHide detailsSee detailsTechnical Drawing and Documentation
Technical Drawing and Documentation
Lesson 1 • Dimensioning and Tolerancing
Explains linear, angular, radial, and ordinate dimensioning plus tolerance annotation. Accurate dimensions and tolerances define acceptable part variation for manufacturing.
Lesson 2 • Geometric Dimensioning and Tolerancing
Introduces GD&T symbols, feature control frames, and datum references in drawings. GD&T communicates functional tolerances more precisely than coordinate dimensions alone.
Lesson 3 • Setting Up a Drawing Template
Covers title block configuration, sheet size selection, and drawing standard settings. A properly configured template ensures consistent, professional documentation output.
Lesson 4 • Annotations, Notes, and Output
Covers surface finish symbols, weld symbols, text notes, and PDF or DXF export. Complete annotations ensure drawings are self-contained manufacturing instructions.
Lesson 5 • Creating and Arranging Views
Teaches base view placement, projected views, section views, and detail views. Correct view arrangement communicates geometry clearly to machinists and engineers.
Chapter 8HideHide detailsSee detailsSimulation, Rendering, and Manufacturing Prep
Simulation, Rendering, and Manufacturing Prep
Lesson 1 • Design Validation and Final Review
Covers mass properties analysis, interference checks, and design checklist workflows. A structured final review catches errors before files are released for production.
Lesson 2 • CAM Basics and Toolpath Setup
Introduces the Manufacture workspace, stock setup, and basic 2D milling toolpaths. CAM preparation connects digital models directly to CNC machining operations.
Lesson 3 • Static Stress Simulation
Introduces finite element analysis setup, material assignment, loads, and constraints. Simulation results identify stress concentrations before physical prototypes are built.
Lesson 4 • Rendering with Fusion 360 Render
Covers appearance assignment, environment lighting, and cloud rendering workflows. Photorealistic renders communicate design intent to stakeholders and clients.
Lesson 5 • 3D Printing Preparation
Explains mesh export, wall thickness checks, and slicer-ready file preparation. Proper preparation reduces print failures and ensures dimensional accuracy.
Your valid completion certificate
This course is for you:
Mechanical engineering students: eager to apply classroom theory inside real CAD software.
Product designers: ready to move beyond sketches into precise, manufacturable 3D models.
Hobbyist makers: wanting to design custom parts for 3D printing or CNC cutting.
Career changers: entering manufacturing or industrial design from an unrelated professional field.
Entrepreneurs: needing to prototype physical products without hiring an outside design team.
Drafters and technicians: looking to upgrade from 2D tools to full parametric 3D modeling.
What our students say
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